Adaptable Superfibers as Implant Material

Electrospun fiber nonwoven materials of different polymer classes provide promising perspectives in almost all fields of application, including medical science. In this paper we present the fiber generation of selected biostable polymers (PBT, TPC-ET, PA 6.12 and PVDF) by direct electrospinning, as...

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Autores principales:	Illner Sabine, Ortelt Jonathan, Arbeiter Daniela, Khaimov Valeria, Wulf Katharina, Oschatz Stefan, Reske Thomas, Senz Volkmar, Schmitz Klaus- Peter, Grabow Niels
Formato:	article
Lenguaje:	EN
Publicado:	De Gruyter 2020
Materias:	electrospinning nanofiber polybutylene terephthalate polyamide polyester elastomer polyvinylidene fluoride Medicine R
Acceso en línea:	https://doaj.org/article/d83e2836ba4d4e548340d534b6a915ed
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spelling	oai:doaj.org-article:d83e2836ba4d4e548340d534b6a915ed2021-12-05T14:10:43ZAdaptable Superfibers as Implant Material2364-550410.1515/cdbme-2020-3120https://doaj.org/article/d83e2836ba4d4e548340d534b6a915ed2020-09-01T00:00:00Zhttps://doi.org/10.1515/cdbme-2020-3120https://doaj.org/toc/2364-5504Electrospun fiber nonwoven materials of different polymer classes provide promising perspectives in almost all fields of application, including medical science. In this paper we present the fiber generation of selected biostable polymers (PBT, TPC-ET, PA 6.12 and PVDF) by direct electrospinning, as an extremely powerful tool for manufacturing of new superfiber implant materials. This initial study includes the variation of some relevant process parameters, such as polymer concentrations or electrode spacing. The influence on fiber morphology, tensile strength and biocompatibility is shown. The results presented indicate that the choice and combination of materials is crucial for the application on load-bearing implants, independent of the processing technology and thus of the fiber bonding, delamination or fiber strength.Illner SabineOrtelt JonathanArbeiter DanielaKhaimov ValeriaWulf KatharinaOschatz StefanReske ThomasSenz VolkmarSchmitz Klaus- PeterGrabow NielsDe Gruyterarticleelectrospinningnanofiberpolybutylene terephthalatepolyamidepolyester elastomerpolyvinylidene fluorideMedicineRENCurrent Directions in Biomedical Engineering, Vol 6, Iss 3, Pp 465-468 (2020)
institution	DOAJ
collection	DOAJ
language	EN
topic	electrospinning nanofiber polybutylene terephthalate polyamide polyester elastomer polyvinylidene fluoride Medicine R
spellingShingle	electrospinning nanofiber polybutylene terephthalate polyamide polyester elastomer polyvinylidene fluoride Medicine R Illner Sabine Ortelt Jonathan Arbeiter Daniela Khaimov Valeria Wulf Katharina Oschatz Stefan Reske Thomas Senz Volkmar Schmitz Klaus- Peter Grabow Niels Adaptable Superfibers as Implant Material
description	Electrospun fiber nonwoven materials of different polymer classes provide promising perspectives in almost all fields of application, including medical science. In this paper we present the fiber generation of selected biostable polymers (PBT, TPC-ET, PA 6.12 and PVDF) by direct electrospinning, as an extremely powerful tool for manufacturing of new superfiber implant materials. This initial study includes the variation of some relevant process parameters, such as polymer concentrations or electrode spacing. The influence on fiber morphology, tensile strength and biocompatibility is shown. The results presented indicate that the choice and combination of materials is crucial for the application on load-bearing implants, independent of the processing technology and thus of the fiber bonding, delamination or fiber strength.
format	article
author	Illner Sabine Ortelt Jonathan Arbeiter Daniela Khaimov Valeria Wulf Katharina Oschatz Stefan Reske Thomas Senz Volkmar Schmitz Klaus- Peter Grabow Niels
author_facet	Illner Sabine Ortelt Jonathan Arbeiter Daniela Khaimov Valeria Wulf Katharina Oschatz Stefan Reske Thomas Senz Volkmar Schmitz Klaus- Peter Grabow Niels
author_sort	Illner Sabine
title	Adaptable Superfibers as Implant Material
title_short	Adaptable Superfibers as Implant Material
title_full	Adaptable Superfibers as Implant Material
title_fullStr	Adaptable Superfibers as Implant Material
title_full_unstemmed	Adaptable Superfibers as Implant Material
title_sort	adaptable superfibers as implant material
publisher	De Gruyter
publishDate	2020
url	https://doaj.org/article/d83e2836ba4d4e548340d534b6a915ed
work_keys_str_mv	AT illnersabine adaptablesuperfibersasimplantmaterial AT orteltjonathan adaptablesuperfibersasimplantmaterial AT arbeiterdaniela adaptablesuperfibersasimplantmaterial AT khaimovvaleria adaptablesuperfibersasimplantmaterial AT wulfkatharina adaptablesuperfibersasimplantmaterial AT oschatzstefan adaptablesuperfibersasimplantmaterial AT reskethomas adaptablesuperfibersasimplantmaterial AT senzvolkmar adaptablesuperfibersasimplantmaterial AT schmitzklauspeter adaptablesuperfibersasimplantmaterial AT grabowniels adaptablesuperfibersasimplantmaterial
_version_	1718371810907521024

Adaptable Superfibers as Implant Material

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